Claustrum modulation drives altered prefrontal cortex dynamics and connectivity

This study delves into the claustrum's role in modulating spontaneous and sensory-evoked network activity across cortical regions. Using mesoscale calcium imaging and Gi and Gq DREADDs in anesthetized mice, we show that decreasing claustral activity enhances prefrontal cortical activity, while activation reduces prefrontal cortical activity. This claustrum modulation also caused changes to the brain's large-scale functional networks, emphasizing the claustrum's ability to influence long-range functional connectivity in the cortex. Claustrum inhibition increased the local coupling between frontal cortex areas, but reduced the correlation between anterior medial regions and lateral/posterior regions, while also enhancing sensory-evoked responses in the visual cortex. These findings indicate the claustrum can participate in orchestrating neural communication across cortical regions through modulation of prefrontal cortical activity. These insights deepen our understanding of the claustrum's impact on prefrontal connectivity, large-scale network dynamics, and sensory processing, positioning the claustrum as a key node modulating large-scale cortical dynamics.

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Publication Details

Journal
Communications Biology
Published
2024-11-22
DOI
https://doi.org/10.1038/s42003-024-07256-5
Citations
6
Primary Topic
Neural dynamics and brain function
Type
article
Field-Weighted Citation Impact
2.06

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article

Claustrum modulation drives altered prefrontal cortex dynamics and connectivity

Yonglie Ma, Ryan Zahacy, Jesse Jackson, Ian R. Winship et al.
6 citations
Communications Biology
Neural dynamics and brain function
2.06
article

Claustrum modulation drives altered prefrontal cortex dynamics and connectivity

Yonglie Ma, Ryan Zahacy, Jesse Jackson, Ian R. Winship, Allen W. Chan
article en
6 citations

Abstract

This study delves into the claustrum's role in modulating spontaneous and sensory-evoked network activity across cortical regions. Using mesoscale calcium imaging and Gi and Gq DREADDs in anesthetized mice, we show that decreasing claustral activity enhances prefrontal cortical activity, while activation reduces prefrontal cortical activity. This claustrum modulation also caused changes to the brain's large-scale functional networks, emphasizing the claustrum's ability to influence long-range functional connectivity in the cortex. Claustrum inhibition increased the local coupling between frontal cortex areas, but reduced the correlation between anterior medial regions and lateral/posterior regions, while also enhancing sensory-evoked responses in the visual cortex. These findings indicate the claustrum can participate in orchestrating neural communication across cortical regions through modulation of prefrontal cortical activity. These insights deepen our understanding of the claustrum's impact on prefrontal connectivity, large-scale network dynamics, and sensory processing, positioning the claustrum as a key node modulating large-scale cortical dynamics.

Communications BiologyVol. 7(1)
University of Alberta (CA), Women and Children’s Health Research Institute (CA)
Fondation Brain Canada, Scottish Rite Charitable Foundation of Canada, Canada Foundation for Innovation, Canada Research Chairs, Canadian Institutes of Health Research, Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 13%
Neural dynamics and brain function
2.06
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